64 courses with the subject CHM, each shown exactly as we captured it from the college's catalog, with every element we hold. Where the wording looks broken, that is our reading of the catalog, not the college's text.
CHM 110Basic Concepts in Chemistry3
Introduction to the basic concepts necessary for an understanding of chemistry. These fundamental concepts are the foundation for this course and are more fully developed in later chemistry courses. Designed for students with no chemistry background.
Introduction to chemistry laboratory techniques and skills required for successful chemistry experimental work. Co-enrollment in Basic Concepts in Chemistry, CHM 110, is required. Restricted to chemistry majors.
General Chemistry for Engineering Majors, emphasizing theoretical principles necessary for an understanding of the nature of matter and the physical and chemical changes which it undergoes. A good understanding of algebra is required.
Study of the main concepts of general, organic, and biological chemistry. Designed for health science students whose curricula require only one year of chemistry.
Emphasis on theoretical principles necessary for an understanding of the nature of matter and the physical and chemical changes which it undergoes. High school chemistry is required. Algebra proficiency is required.
Emphasis on theoretical principles necessary for an understanding of the nature of matter and the physical and chemical changes which it undergoes. High school chemistry is required. Good understanding of algebra desirable.
Experimental chemistry utilizing methods of separation, identification, and purification of mixtures. Emphasis on thermochemical and chemical equilibrium concepts through analysis of experimental data. Must be taken in sequence.
Emphasis on theoretical principles necessary for the understanding of the nature of matter and the physical and chemical changes which it undergoes. Completion of General Chemistry I is required.
Emphasis on theoretical principles necessary for an understanding of the nature of matter and the physical and chemical changes which it undergoes. High school chemistry is not required but desirable. Good understanding of algebra is desirable. Must be taken in sequence.
Experimental chemistry utilizing methods of separation, identification, and purification of mixtures. Emphasis on thermochemical and chemical equilibrium concepts through analysis of experimental data. Must be taken in sequence.
General Chemistry for chemistry majors, emphasizing theoretical principles necessary for understanding the nature of matter and the changes it undergoes. High school chemistry or its equivalent is desirable. Good algebra skills are required because of the quantitative nature of much of the work. Includes problem-solving practice and inclusion of special chemistry topics.
General Chemistry for chemistry majors,, emphasizing theoretical principles necessary, for understanding the nature of matter and the , changes it undergoes. High school chemistry, or its equivalent is desirable. Good algebra , skills are required because of the quantitative, nature of much of the work. Includes, problem-solving practice and inclusion of special , chemistry topics.
General Chemistry for chemistry majors, emphasizing theoretical principles necessary for understanding the nature of matter and the changes it undergoes. High school chemistry or its equivalent is desirable. Good algebra skills are required because of the quantitative nature of much of the work. Includes problem-solving practice and inclusion of special chemistry topics.
General Chemistry for chemistry majors, emphasizing theoretical principles necessary for understanding the nature of matter and the changes it undergoes. Good algebra skills are required because of the quantitative nature of much of the work.
General Chemistry for chemistry majors, emphasizing theoretical principles necessary for understanding the nature of matter and the changes it undergoes. Good algebra skills are required because of the quantitative nature of much of the work.
General Chemistry Applications is a two-semester course sequence for chemistry majors. It aims to develop students' critical thinking skills necessary for success in all their major courses. Students work in facilitated learning teams, solving problems related to General Chemistry content.
General Chemistry for chemistry majors, emphasizing theoretical principles necessary for understanding the nature of matter and the changes it undergoes. Good algebra skills are required because of the quantitative nature of much of the work.
General Chemistry for chemistry majors, emphasizing theoretical principles necessary for understanding the nature of matter and the changes it undergoes. Good algebra skills are required because of the quantitative nature of much of the work.
General Chemistry Applications is a two-semester course sequence for chemistry majors. It aims to develop students' critical thinking skills necessary for success in all their major courses. Students work in facilitated learning teams, solving problems related to General Chemistry content.
Study of organic nomenclature, structure of, organic compounds, the classes of organic , compounds, and the reactions of organic molecules., A one semester organic chemistry for Health , Science Majors.
Introduction to the chemistry of carbon-containing compounds, with emphasis on the relationship between the structure of organic molecules and their chemical reactions. Designed for science majors, including pre-medicine. Must be taken in sequence.
Laboratory course designed to teach modern laboratory procedures and techniques and to illustrate the reactions and theoretical material presented in CHM 321 and CHM 322. Must be taken in sequence.
Introduction to the chemistry of carbon-containing compounds, with emphasis on the relationship between the structure of organic molecules and their chemical reactions. Designed for science majors, including pre-medicine. Must be taken in sequence.
Laboratory course designed to teach modern laboratory procedures and techniques and to illustrate the reactions and theoretical material presented in CHM 321 and CHM 322. Must be taken in sequence.
Project-based course providing research-level laboratory experience in modern organic chemistry, synthesis and analysis and the development of literature review and scientific presentation skills. For chemistry majors (others by permission of instructor).
Study of volumetric and gravimetric methods of analysis with emphasis on chemical equilibrium, including acid-base, precipitation, oxidation-reduction, and complex metric methods of analysis.
Application of differential equations, vector analysis, determinants and functions to problems encountered in the physical sciences. Emphasis on practical problem-solving skills.
Quantitative study of the structure and physical properties of matter, including study of the laws governing chemical interaction and the foundations upon which these laws rest. Covers energy change accompanying physical and chemical changes. Must be taken in sequence.
Quantitative study of the structure and physical properties of matter, including study of the laws governing chemical interaction and the foundations upon which these laws rest. Covers energy change accompanying physical and chemical changes. Must be taken in sequence.
Typical physicochemical measurements which seek to refine computational skills and experimental techniques. Instrumentation associated with spectroscopy, kinetics, and macromolecular characterization is regularly employed.
Seminars supervised by visiting industrial chemists as well as the departmental faculty, including internship for cooperative training at an industrial chemical company with co-op assignment opportunities.
Investigation of current problems in chemistry supervised by one of the members of the Chemistry Department. (5 hours lab per week required for one semester credit hour.)
Investigation of current problems in chemistry supervised by one of the members of the Chemistry Department. (5 hours lab per week required for one semester credit hour.)
In-depth study of the reactions occurring in living systems, designed for science majors (especially students intending advanced study in the health sciences). Topics include molecular architecture, molecular energetics, interactions of biomolecules, intermediary metabolism, mass transport in biological systems, and molecular genetics.
Emphasis on the procedures and operations of modern instrumentation used for isolation, purification, and study of biomolecules including modern chromatography techniques, gel and paper electrophoreses, ultra centrifugation, and spectroscopic techniques.
In-depth study of the reactions occurring in living systems, designed for science majors (especially students intending advanced study in the health sciences). Topics include molecular architecture, molecular energetics, interactions of biomolecules, intermediary metabolism, mass transport in biological systems, and molecular genetics.
Emphasis on the procedures and operations of modern instrumentation used for isolation, purification, and study of biomolecules including modern chromatography techniques, gel and paper electrophoreses, ultra centrifugation, and spectroscopic techniques.
Introduction to the synthesis, isolation, and characterization of inorganic and organometallic compounds. Students will conduct basic synthetic laboratory procedures and utilize a variety of analytical characterization techniques. Students will complete a series of structured, interconnected laboratory experiments derived from current literature.
Introduction to the synthesis, isolation, and characterization of inorganic and organometallic compounds. Students will conduct basic synthetic lab procedures and utilize a variety of analytical characterization techniques. Students will complete a series of structured, interconnected lab experiments derived from current literature. Honors students will complete a literature review and present a seminar.
Emphasis on modular topics including modern chemical bonding, stereochemistry, spectroscopy, ionization equilibrium, macromolecule, acid-base chemistry, organic and inorganic nomenclature, kinetics, and advanced analytical techniques.
Emphasis on modular topics including modern chemical bonding, stereochemistry, spectroscopy, ionization equilibrium, macromolecule, acid-base chemistry, organic and inorganic nomenclature, kinetics, and advanced analytical techniques.
Emphasis on modular topics including modern chemical bonding, stereochemistry, spectroscopy, ionization equilibrium, macromolecule, acid-base chemistry, organic and inorganic nomenclature, kinetics, and advanced analytical techniques.
Emphasis on modular topics including modern chemical bonding, stereochemistry, spectroscopy, ionization equilibrium, macromolecule, acid-base chemistry, organic and inorganic nomenclature, kinetics, and advanced analytical techniques.
Study of advanced mathematical topics including Fourier series, determinants and matrices, complex variables, calculus of variations, vector analysis, series solutions of differential equations, and partial differential equations, with special emphasis on applications to physical science topics.
The applied inorganic chemistry laboratory will provide an introduction to the synthesis, isolation, and characterization of inorganic and organometallic compounds. The student will conduct basic synthetic laboratory procedures and utilize a variety of analytical characterization techniques. Each student will complete a series of structured, interconnected laboratory experiments derived from the current literature.
This course examines modern concepts in reaction-transport phenomena, transition state theory, and reaction dynamics. Experimental techniques and physical models for reactivity at a microscopic level are discussed.
This course deals with the study of the interaction of radiation with matter. The application of quantum mechanics for the spectroscopic determination of the rotational, vibrational, and electronic structure of matter is examined.